Cross-Dataset Field Integration via Feature Vectors

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Solution Overview

Problem

Existing multi-dataset systems face challenges in automatically and effectively identifying associations between dataset fields, requiring manual intervention due to the lack of effective predictive models for cross-dataset integration.

Innovation Solution

The development of methods and systems that utilize term-frequency-based feature extraction and unsupervised models, such as k-nearest-neighbor (kNN), to determine integration feature vectors and integration spaces, enabling automatic detection of associations between dataset fields and facilitating cross-dataset field integration.

Engineering Contradictions & Design Principles

VSEngineering Contradiction Analysis

1Reliability

If manual intervention is used to identify associations between dataset fields, then reliability of field association is improved, but productivity of cross-dataset integration deteriorates

Engineering Contradiction:
Improvereliability of field associationVSAvoidproductivity of cross-dataset integration
Core Design Contradiction:
ReliabilityVSProductivity

Solution Approach 1:

The system performs self-service by automatically identifying associations between dataset fields using unsupervised machine learning models. The cross-dataset field integration routine autonomously determines field associations without requiring manual intervention, thereby maintaining reliability while significantly improving productivity. The system serves itself by extracting features from field names, descriptions, and sample values, and using these features to automatically match fields across datasets.

Inventive Principle:
Principle #25Self-service

2Productivity

If automated field association methods are implemented, then productivity of cross-dataset integration is improved, but measurement precision of field associations deteriorates

Engineering Contradiction:
Improveproductivity of cross-dataset integrationVSAvoidprecision of field association
Core Design Contradiction:
ProductivityVSMeasurement precision

Solution Approach 1:

The system changes parameters by extracting multiple types of features from dataset fields including field names, field descriptions, and sample values. It transforms these diverse parameters into a unified feature space where associations can be measured. The unsupervised model adjusts parameters dynamically by learning from the data distribution, enabling accurate field associations while maintaining high productivity. Confidence scores are computed based on the distance between feature vectors, providing a quantitative measure of association precision.

Inventive Principle:
Principle #35Parameter changes

3Device complexity

If existing multi-dataset systems are used without predictive models, then device complexity is reduced, but extent of automation deteriorates

Engineering Contradiction:
Improvecomplexity of multi-dataset systemVSAvoidautomation of field association
Core Design Contradiction:
Device complexityVSExtent of automation

Solution Approach 1:

The system introduces an intermediary component - the unsupervised machine learning model - that bridges the gap between simple data collection and intelligent field association. This intermediary automatically processes field metadata, extracts meaningful features, and determines associations without requiring complex manual configuration or supervision. The model acts as an automated mediator that enables the system to achieve high extent of automation while keeping the overall architecture relatively simple and modular.

Inventive Principle:
Principle #24Intermediary (Mediator)

Data Source

PatentUS11714789B2Performing cross-dataset field integration
Publication Date: 2023.08.01 OPTUM TECH INC
  • US11714789B2 patent drawing
  • US11714789B2 patent drawing
  • US11714789B2 patent drawing

AI summary

There is a need for more effective and efficient cross-dataset field integration. In one example, a method comprises determining a primary integration feature vector for a primary dataset field; for each secondary dataset field of a plurality of secondary dataset fields, determining a secondary integration feature vector; determining, based at least in part on the primary integration feature vector and each secondary integration feature vector, an integration space; determining, for each secondary dataset field of the plurality of secondary dataset fields and based at least in part on the integration space, a distance measure between the primary dataset field and the secondary dataset field; determining, based at least in part on each distance measure between the primary dataset field and a secondary dataset field of the plurality of secondary dataset fields, a predefined number of the plurality of secondary dataset fields; and performing the cross-dataset field integration based at least in part on the a predefined number of the plurality of secondary dataset fields.